Question 1: Find the value of resistance R between A and B that enables the following circuit to deliver maximum power and then find the maximum power delivered to R: Hint: For maximum power transfer to the load: R = Ra R1 R4 1.0 kN 1.0 kN R2 470 N Vs 10 V R3 220 N

Q: why is it saying that 0.3636 is wrong

A:

Q: A British electrical equipment is marked as 200 cm3. Convert this into cubic inches.

A:

Q: It's hard to read，  I need handwrite solution

A: Given: To find: For all circuits, i) Transfer function, ii) Magnitude response, iii) Phase…

Q: What are the values of R,R, and R, ? 18 0 A B A B Ri 36 0 272 R: (a) 120,6Ω, and 8Ω (b) 6012N, and…

A: Given: RAB=18 Ω RBC=27 Ω RAC=36 Ω Solution: By Delta to Star transformation, R1=RAB×RACRAB+RAC+RBC…

Q: im looking for the k-maps for TA and TB

A:

Q: Convert 250 cm3 into cubic inches.

A: Given, 250 cm3

Q: this version is hard to read， I need a handwrite version

A:

Q: A British equipment is marked 200 cm3. Convert this into cubic inches.

A: Given: Volume in cm3 = 200

Q: Find Leq (in Henry). Give only the numeric value. 4 H 20 H m Leq m 8 H 7 H m 10 H 12 H

A:

Q: i cant really read the hand written

A: The current through a resistor is⇒I=5 mA.The colour markings for a resistor are brown, black, red…

Q: What does SI stand for in the National Electrical Code? Select one: a. single length b. metric c.…

A: The SI stands for international standards used for units in the national electrical codes. As there…

Q: How can i get I1 in  Q.b

A: It is given that: Voltage=3200 VPower=12000 kWFrequency=50 HzPole=12R1= 0.697 Ω R2= 0.328 Ω Rm1=226…

Q: ct Fluke T5 and DMM Questions These questions apply to the T5 and/or the Fluke DMM. You will likely…

A:

Q: Convert 250 cm3 into cubic inches.

A: The given volume is 250 cm3. This volume is to be converted into equivalent cubic inches (in3).

Q: 24. What value is to be considered for a "don't care condition"?

A: The correct option along with the explanation is provided in the following section.

Thermistors

A thermistor is a special type of resistor whose resistance is more temperature-dependent than standard resistors.  The resistance of the thermistor decreases with increasing temperature. This is the basic principle of thermistors. This allows the thermistor circuit to detect very small temperature changes that cannot be observed with the Resistance temperature detectors (RTDs) or the thermocouples. Since the resistance of a thermistor is temperature dependent, it can be connected to an electrical circuit to measure body temperature. This high sensitivity to temperature changes makes thermistors very useful for accurately controlling and calibrating temperature measurements. In general, resistance increases with increasing temperature in most metals, but thermistors react negatively.